Abstract: A mobile device includes a first processor, a second processor having a smaller power consumption than the first processor, and a first battery capable of supplying power to the first processor and the second processor, in which a distance between the first processor and an attachable/detachable second battery that is capable of being attached and detached and that is capable of configured to supplying power to the first processor and the second processor is longer than a distance between the second processor and the second battery.

Abstract: A mobile device includes a drive element, a first battery which supplies power to the drive element, a first terminal which receives a supply of power to charge the first battery and a second battery that supplies power to the drive element, and a second terminal which receives a supply of power to charge the first battery and the second battery, in which an electric storage capacity of the second battery is greater than an electric storage capacity of the first battery, the power supplied to the first terminal is greater than the power supplied to the second terminal, and charging of the second battery is prioritized over charging of the first battery when the first battery and the second battery are charged using the power supplied to the first terminal.

Abstract: A mobile device includes a first processor, a second processor having a smaller power consumption than the first processor, and a first battery capable of supplying power to the first processor and the second processor, in which a distance between the first processor and an attachable/detachable second battery that is capable of being attached and detached and that is capable of configured to supplying power to the first processor and the second processor is longer than a distance between the second processor and the second battery.

Abstract: A mobile device which includes a drive element, a processor which controls the drive element, a first battery which supplies power to the drive element, a second battery that supplies power to the drive element and is attachable and detachable, and power wiring which electrically couples the processor, the first battery, and the second battery to each other, in which a wiring length between the processor and the first battery in the power wiring is shorter than a wiring length between the processor and the second battery in the power wiring, and a wiring length between the second battery and the first battery in the power wiring is shorter than a wiring length between the second battery and the processor in the power wiring.

Abstract: A liquid ejecting apparatus includes a scanner unit, a scanner drive section that drives the scanner unit, a head unit that is provided with an ejection section, a drive signal generation section that generates a drive signal driving the ejection section, a casing in which the head unit is disposed, a temperature information output section that outputs temperature information indicating a value corresponding to a temperature in the casing, and a stop control section that decides a time length of the stop period in which generation of the drive signal is stopped based on the temperature information, in which the time length is longer when the scanner unit is driven than when the scanner unit is not driven.

Abstract: A liquid ejecting apparatus includes a scanner unit, a scanner drive section that drives the scanner unit, a head unit that is provided with an ejection section, a drive signal generation section that generates a drive signal driving the ejection section, a casing in which the head unit is disposed, a temperature information output section that outputs temperature information indicating a value corresponding to a temperature in the casing, and a stop control section that decides a time length of the stop period in which generation of the drive signal is stopped based on the temperature information, in which the time length is longer when the scanner unit is driven than when the scanner unit is not driven.

Abstract: An image scanner might capture an image corresponding to scan region 263 which might be somewhat larger than original 262. Image processing circuitry might then enlarge an image corresponding to scan region 263 (arrow 279), converting it into enlarged image 271. Within enlarged image 271, the image of original 262 might have been enlarged so as to become image 273, which might be somewhat larger than printing paper 272. This enlarged original image 273 which would be present within enlarged image 271 might then be printed by a printer. Four-sided borderless copying is possible.

Abstract: When using image scanners to capture images of originals and using printers to print same, four-sided borderless copying is enabled such that margins do not appear on printouts. An image scanner might capture an image corresponding to scan region 263 which might be somewhat larger than original 262. Image processing circuitry might then enlarge an image corresponding to scan region 266 (arrow 279), converting it into enlarged image 271. Within enlarged image 271, the image of original 262 might have been enlarged so as to become image 273, which might be somewhat larger than printing paper 274. This enlarged original image 273 which would be present within enlarged image 271 might then be printed by a printer.

Abstract: An image scanner might capture an image corresponding to scan region 263 which might be somewhat larger than original 262. Image processing circuitry might then enlarge an image corresponding to scan region 263 (arrow 279), converting it into enlarged image 271. Within enlarged image 271, the image of original 262 might have been enlarged so as to become image 273, which might be somewhat larger than printing paper 274. This enlarged original image 273 which would be present within enlarged image 271 might then be printed by a printer. Four-sided borderless copying is possible.

Abstract: When using image scanners to capture images of originals and using printers to print same, four-sided borderless copying is enabled such that margins do not appear on printouts. An image scanner might capture an image corresponding to scan region 263 which might be somewhat larger than original 262. Image processing circuitry might then enlarge an image corresponding to scan region 266 (arrow 279), converting it into enlarged image 271. Within enlarged image 271, the image of original 262 might have been enlarged so as to become image 273, which might be somewhat larger than printing paper 274. This enlarged original image 273 which would be present within enlarged image 271 might then be printed by a printer.

Abstract: When using image scanners to capture images of originals and using printers to print same, four-sided borderless copying is enabled such that margins do not appear on printouts. An image scanner might capture an image corresponding to scan region 263 which might be somewhat larger than original 262. Image processing circuitry might then enlarge an image corresponding to scan region 266 (arrow 279), converting it into enlarged image 271. Within enlarged image 271, the image of original 262 might have been enlarged so as to become image 273, which might be somewhat larger than printing paper 274. This enlarged original image 273 which would be present within enlarged image 271 might then be printed by a printer.

Abstract: An object of the present invention is to provide a command data conversion device and printing apparatus that can correctly interpret print command data even where the codes or the parameter codes assigned to the commands in the print command data change, or where the data output sequence changes. Using the present invention, print command data including commands used in print control as well as associated data are received, and the contents thereof are interpreted. Multiple commands are rewritably stored in command registers in advance, and if a command included in the print command data matches any of the stored multiple commands, prescribed processing is carried out to at least one of either the command or its associated data.

Abstract: An image scanner might capture an image corresponding to scan region 263 which might be somewhat larger than original 262. Image processing circuitry might then enlarge an image corresponding to scan region 263 (arrow 279), converting it into enlarged image 271. Within enlarged image 271, the image of original 262 might have been enlarged so as to become image 273, which might be somewhat larger than printing paper 274. This enlarged original image 273 which would be present within enlarged image 271 might then be printed by a printer. Four-sided borderless copying is possible.

Abstract: An image scanner might capture an image corresponding to scan region 263 which might be somewhat larger than original 262. Image processing circuitry might then enlarge an image corresponding to scan region 263 (arrow 279), converting it into enlarged image 271. Within enlarged image 271, the image of original 262 might have been enlarged so as to become image 273, which might be somewhat larger than printing paper 274. This enlarged original image 273 which would be present within enlarged image 271 might then be printed by a printer. Four-sided borderless copying is possible.

Abstract: It is an object of the present invention, when using image scanner(s) to capture image(s) of original(s) and using printer(s) to print same, to enable four-sided borderless copying such that margin(s) do not appear on printout(s). An image scanner might capture an image corresponding to scan region 263 which might be somewhat larger than original 262. Image processing circuitry might then enlarge an image corresponding to scan region 266 (arrow 279), converting it into enlarged image 271. Within enlarged image 271, the image of original 262 might have been enlarged so as to become image 273, which might be somewhat larger than printing paper 274. This enlarged original image 273 which would be present within enlarged image 271 might then be printed by a printer.

Abstract: The image output apparatus of the invention includes a main unit group of multiple main units connected in series to perform preset series of image processing and a pass unit group of multiple pass units connected in series to be parallel with the multiple main units. The averaged data of the tone values of four pixels generated by a black/white edge processing unit are sequentially transferred through the main unit group. The standard edge data and the noise data generated by a color conversion unit are sequentially transferred through the pass unit group, synchronously with the transfer of the averaged data through the main unit group. The data transferred through the pass unit group enters an inner-block smoothing unit to go through the smoothing process. The image output apparatus of the invention has the hardware configuration that allows flexible design change according to the required series of image processing.

Abstract: An image scanner might capture an image corresponding to scan region 263 which might be somewhat larger than original 262. Image processing circuitry might then enlarge an image corresponding to scan region 263 (arrow 279), converting it into enlarged image 271. Within enlarged image 271, the image of original 262 might have been enlarged so as to become image 273, which might be somewhat larger than printing paper 274. This enlarged original image 273 which would be present within enlarged image 271 might then be printed by a printer. Four-sided borderless copying is possible.

Abstract: A recording apparatus, and so forth, capable of outputting at high speed is provided. Second recording data that are stored in a memory based on data obtained by a data obtaining section are transferred to a data generator via a second transfer path, and based on the second recording data that have been transferred, the data generator generates first recording data for performing recording on a medium.

Abstract: A circuit structure has multiple comparator circuits connected in series. Each comparator circuit compares an input tone value with a medium value of table data input from a preceding comparator circuit. When the tone value is greater than the medium value, the comparator circuit selects table data of greater than the medium value and outputs the selected table data to a subsequent comparator circuit. In this state, the comparator circuit outputs a value ‘1’ as a resulting bit representing a result of the comparison. When the tone value is not greater than the medium value, on the other hand, the comparator circuit selects table data of not greater than the medium value and outputs the selected table data to the subsequent comparator circuit. In this state, the comparator circuit outputs a value ‘0’ as the resulting bit. The circuit structure arrays the resulting bits output from the respective comparator circuits in an output order from its upper bit position and outputs the array of the resulting bits.

Abstract: When using image scanners to capture images of originals and using printers to print same, four-sided borderless copying is enabled such that margins do not appear on printouts. An image scanner might capture an image corresponding to scan region 263 which might be somewhat larger than original 262. Image processing circuitry might then enlarge an image corresponding to scan region 266 (arrow 279), converting it into enlarged image 271. Within enlarged image 271, the image of original 262 might have been enlarged so as to become image 273, which might be somewhat larger than printing paper 274. This enlarged original image 273 which would be present within enlarged image 271 might then be printed by a printer.